| 200. Human
Genetics
First semester. Three credits. Two lectures and one
problem session. Prerequisite: BIOL 107. Open to sophomores.
Strausbaugh
Principles of genetics as applied to humans. Focus
on modern methods of molecular genetics. |
| 201. Gene
Expression
Second semester. Three credits. Recommended
preparation: MCB 200 or 210 or 229. Open to sophomores.
Hightower
Basic mechanisms of genetic information transfer in
eukaryotic cells from DNA to folded and assembled proteins. Regulation of
transcription, translation, DNA replication, and the cell
cycle. |
| 203. Introduction to Biochemistry
Either semester. Four credits. Three class periods
and one 3-hour laboratory period. Prerequisite: CHEM 141 or 244. (CHEM 244
may also be corequisite.) Open to sophomores. Not open for credit to
students who have passed MCB 204.
The structure, chemistry, and metabolism of
carbohydrates, lipids and proteins. Enzyme function and kinetics, energy
metabolism, and structure and function of nucleic acids. A survey course
for students of agriculture, general biology, medical technology, nursing,
and pharmacy. Molecular and Cell Biology majors, biophysics majors, and
other students desiring a more intensive introduction or considering
advanced course work in biochemistry or molecular biology should take MCB
204. |
| 204.
Biochemistry
First semester. Five credits. Four class periods
and one 3-hour laboratory. Prerequisite or corequisite: CHEM 244.
Recommended preparation: MCB 210 or MCB 229. Not open for credit to
students who have passed MCB 203. Teschke
The structure and function of biological
macromolecules. The metabolism of carbohydrates, lipids, amino acids,
proteins and nucleic acids. The regulation of metabolism and biosynthesis
of biological macromolecules. An in-depth introduction intended for
students planning to take advanced course work in biochemistry,
biophysics, or other areas of molecular biology. |
| 205. Human Metabolism and Disease
Second semester, alternate years. Two credits.
Prerequisite: MCB 203 or 204, or consent of instructor.
Albert
A thorough analysis of the inter-relationships of
metabolic pathways in connection with human health and disease, including
inherited metabolic diseases and the role of hormones in metabolic
pathways. |
| 206. Fundamentals of Strucutral Biology
First semester. Three credits. Prerequisite: BIOL
107 or CHEM 128, or consent of instructor. Yeagle
An introduction to principles underlying the
structure and function of the molecules guiding life processes. These
principles will be applied to proteins, DNA/RNA and membranes as well as
to the energetics of life processes. |
| 207Q. Introduction to Biophysical Chemistry
Second semester. Three credits. Prerequisite: CHEM
243; MATH 114Q or 116Q; PHYS 122, 132 or 142; or consent of
instructor.
Energetics and kinetics of metabolic reactions.
Interactions of electromagnetic radiation and biological macromolecules.
Formation and energetics of supramolecular structures. The basis of
selected techniques of molecular biology, such as DNA hybridization,
radioimmune assays. DNA melting and thermal transitions in polymers,
thermodynamics, analysis of reactions, binding theory, cooperative
interactions. |
| 208Q. Techniques of Biophysical Chemistry
Second semester. Three credits. Prerequisite: MCB
207, or CHEM 263, or consent of instructor. Braswell
The characterization of biological macromolecules
(i.e. proteins and nucleic acids) in solution is important to the
biotechnology and pharmoceutical industries. This course deals with
hydrodynamic techniques (i.e. diffusion, electrophoresis, sedimentation,
light scattering, and viscosity) for molecular size and shape, and
spectroscopic methods (such as circular dichroism) for more detailed
structure. |
209. Structure and Function of Biological
Macromolecules
Second semester. Three credits. Prerequisite or
corequisite: MCB 204 or 203 or consent of instructor. Knox
Correlation of three-dimensional molecular
architecture with biochemical function in proteins, nucleic acids, and
large assemblies such as viruses and ribosomes. Folding motifs and
domains; molecular ancestry/homology; molecular recognition at the atomic
level, as in DNA/protein complexes; structural basis of enzyme specificity
and catalysis. Structure prediction from sequence; principles of structure
determination by x-ray diffraction, NMR and CD spectroscopies, and
electron microscopy. X-ray laboratory and graphics
demonstrations. |
| 210. Cell
Biology
First semester. Three credits. Prerequisite: BIOL
107. This course is intended to be taken before MCB 203 or 204
(Biochemistry). Open to sophomores. Knecht/Lee
Structural organization of cells and the molecular
basis of dynamic cellular processes, with emphasis on eukaryotic cells.
Topics include protein targeting, vesicle trafficking, cytoskeleton,
cell-cell interactions in tissues, and the molecular basis of related
human diseases. |
| 211. Basic
Immunology
First semester. Three credits. Prerequisite: BIOL
107. Recommended preparation: MCB 210. Lynes
An introduction to the genetic, biochemical, and
cellular mechanisms of the immune system. This course will address basic
aspects of immune function, and will examine abnormal immune function
associated with cancer, autoimmune disease, AIDS, and other immunological
abnormalities. |
| 212.
Genetic Engineering and Functional Genomics
Second semester. Three credits. Prerequisite: MCB
200 or 213. Recommended preparation: MCB 204 or 203. R.
O'Neill
Methods and applications of genetic engineering,
including gene manipulation and transfer techniques in prokaryotes and
eukaryotes. Emphasis on applications of recombinant DNA technology in
the elucidation of gene function.
Consideration of recent technological developments in molecular genetics,
such as cloning, gene therapy, the patenting and release of genetically
engineered organisms, and societal issues related to these
developments. |
| 213. Concepts of Genetic Analysis
Second semester. Four credits. Three class periods
and 2-hour laboratory. Prerequisite: BIOL 108 or 110, or MCB 200 or
equivalent, and CHEM 128. Open to sophomores. Zhang
Survey of genetic theory and applications of
genetic analysis. Model genetic systems in animals, plants, and
microbes. |
| 214. Experiments in DNA Identification
Second semester. Two credits. One fifty minute
lecture period and one three hour laboratory session. Prerequisite:
MCB 200. O'Neill
An introductory laboratory course in principles and
techniques of DNA manipulation and identification. Course simulates
independent research, using modern molecular genetics
techniques. |
| 215. Experiments in Molecular Genetics
First semester. Three credits. One 1-hour lecture
and two 3-hour laboratory periods. Open only with consent of instructor.
Recommended preparation: MCB 204, MCB 212 or 217. Not open for credit to
students who have passed MCB 230. Reiter
Modern methods in molecular genetics arranged to
meet a research goal. Use of polymerase chain reaction, bacteriophage
library screening, molecular cloning, nucleic acid hybridizations, and DNA
sequence determinations to isolate and characterize a eukaryotic
gene. |
| 217. Molecular Biology and Genetics of
Prokaryotes
First semester. Four credits. Three lecture periods
and one 2-hour discussion. Prerequisite: MCB 229. Noll
Molecular genetics of bacteria, archaebacteria, and
their viruses. Transcription and replication of DNA, transformation,
transduction, conjugation, genetic mapping, mutagenesis, regulation of
gene expression, genome organization. |
| 218.
Heredity and Society
First semester. Three credits. Open to sophomores.
May not be counted toward the biology major.
The principles of heredity and their implications
for society. |